Hibridologichen analysis of inhetitance of plant height and number of leaves in hybrid combination of Burley tobacco
Yovko Dyulgerski
Abstract: The way of inheritance, the manifestations of heterosis, transgression and depression, minimal number of genes by which parental forms differ, degree of dominance, manifestations of epistasis and coefficient of heritability and efficiency of selection with regard to plant height and number of leaves, on Burley tobacco samples are established. For the purpose are researched the population of P1, P2, F1 and F2 of seven hybrid combinations. The results show that in the height of plants and number of leaves inheritance is preferably overdominantly and always in the direction of the parent with the higher values of investigated parameters. With respect to the height of the plants was observed and incompletely dominantly, and when the number of leaves and an additive. Manifestations of heterosis and transgression are more pronounced in relation to the number of leaves and have significant values of economic importance, only by this indicator. Data from hybridological analysis showed that the minimal number of genes determining the expression of the trait plant height is greater than the number of leaves. Epistatic interactions are more strongly manifested in the determination of the trait height of plant, but only in the number of leaves negative ones are observed. The relatively low to medium values obtained in terms of the coefficient of heritability in the studied crosses Burley tobacco show that a low share of genotype influence on the manifestation of the studied trait is observed, which means that the selection for plant height will be more effective in the later hybrid generations. The established even lower values for the index number of leaves show the crucial importance of the influence of the environment on the determination of the trait and suggest an effective selection in even later hybrid generations, which makes the selection activity difficult. The study shows that, in general, the selection for the trait number of leaves is more complex and longer than that for the height of the plants.
Keywords: Burley tobacco; heterosis hereditability; hybridological analysis; inheritance; number of leaves; plant height
Citation: Dyulgerski, Yo. (2024). Hibridologichen analysis of inhetitance of plant height and number of leaves in hybrid combination of Burley tobacco. Bulg. J. Agric. Sci., 30(5), 828–832
References: (click to open/close) | Ahmed, S. & Mohammad, F. (2017). Heritability Estimates and Correlation Analysis for Production Traits in Fcv Tobacco. Sarhad Journal of Agriculture, 33(2), 12-219. Amarnath, S. (1987). Genetic variability in chewing tobacco. Madras Agriculture Journal, 74(10-11), 499-500. Aleksoski̇, J. (2022). Studies of Inheritance and Heterosis for Quantitative Traits in Diallel F1 Crosses in Tobacco. International Journal of Innovative Approaches in Agricultural Research, ISSN (Online): 2602-47722022, 6(2), 164-174. Bozhinova, R. (2006). Coefficients for Determination of the Leaf Area in Three Burley Tobacco Varieties. Journal of Central European Agriculture, 7(1), 7-12. Bridges, T., Walton, L. & Palmer, G. (2011).The importance of moisture timeliness for optimal crop yield and leaf quality in Burley tobacco. Tobacco Science, 48, 36–42. 7. Jeffrey RN. 1940. Butorac, J. (2000). Correlation among some leaf parameters in Burley tobacco. Agriculturae Conspectus Scientificus, 65(1), 9-14. Butorac, J. (2001). Regression Analysis of some Leaf Parameters of Burley Tobacco. Agriculturae Conspectus Scientificus, 66(3), 145-151. Butorac, J., Beljo, J. & Gunjačal, J. (1999). Study of inheritance of some agronomic and morphological traits in burley tobacco by graphic analysis of diallel cross. University of Zagreb, Faculty of Agriculture, Croatia. Tobacco Institute Zagreb, Croatia. Dissertation. Butorac, J., Vasilj, Đ., Kozumplik, V. & Beljo, J. (2004). Quantitative parameters of some burley tobacco traits. Rostl. Výr., 45, 149–156 (En). Chang, E. Y. & Shyu, C. C. (1976). Study of the general and specific combining ability in flue-cured, Burley and Turkish tobacco. Taiwa, Tob. Wine Monop. Bur. To. Res. Inst. Bull., 45, 1-9; Tobacco Abstracts, 21(4), 1977, Abstract 1035. Dimanov, D. (2003). Herediatability, correlative and regression coefficients of some quantitative characters in somaclonal Oriental tobacco progenies. Genetics and Breeding, 32(3-4), 11-15 (En). Ganachari, M., Mohan Kumar, H. D., Dushyantha Kumar, B. M., Natarajuand, S. P. & Ravindra, H. (2018). Heterosis for Cured Leaf Yield in FCV (Flue-Cured Virginia) Tobacco (Nicotiana tabacum L.). Int. J. Curr. Microbiol. App. Sci., 7(8), 2726-2733. Kara, S. M. & Esendae, E. (1995). Heritability and combining ability analysis of some quantitative characters in Turkish tobacco. Tobacco Res., 21(1/2), 16-22. Kinay, A. & Kurt, D. (2022). Heterosis and inheritance studies on morphological and chemical characters of tobacco affecting the yield and quality. Agronomy Journal, 114(1), Online ISSN:1435-0645, DOI: 10.1002/agj2.21024 Kocoska, K. (2018). Effects of climate conditions on some quantitative traits of Burley tobacco. Tobacco, ISSN 0494-3244, 0494-3244, 68(7-12), 22-29 (En). Kocoska, K. & Pelivanovska, V. (2017). Results of investigation of genotype and its influence on the yield, quality and economic effect of Virginia tobacco in R. Macedonia. Agriculture & Forestry, 63(1), 205-210 (En). Korubin-Aleksoska, A. (2008). Heterosis in F1 progeny in various types of tobacco. Tobacco, 58(5-6), 113-119 (En). Korubin – Aleksoska, A. (2016). Quantitative genetic investigations on some important traits in tobacco varieties and their diallel one-way and back-cross generations. Tobacco, 66(7-12), 3-11 (En). Korubin – Alesoska, A. & Dojcinov, S. (2019). Study on inheritance of the number of leaves per stalk and dimensions of the leaves from middle belt in tobacco varieties from diferent types and their F1 hibrids. Tobacco, ISSN 0494-3244, 69(1-6), 3-13 (En). Mather, K. & Jinks, J. L. (1985). Biometrical Genetics. Chapman and Hall Ltd., London London New York Masheva, V. (2007). Study of the inheritance of basic traits in oriental tobacco (N. tabacum) and the possibility of using proline as a stress marker in selection. Thesis, Plovdiv, TTPI (Bg). Metha, L. A., Patel, G. J. & Jaisani, B. G. (1985). Genetic analysis of some agro-morphological traits of N. Tabacum. Tobacco Research, 11(2), 148-154. Mitreski, M., Aleksoski, J. & Korubin - Aleksoska, A. (2017). Morphological properties and variability in some Burley tobacco varieties. Tobacco, ISSN 0494-3244, 67(1-6), 31- 40 (En) Mitreski, M., Korubin-Aleksoska, A., Aleksoski, J., Trajkoski, J., Trajkoski, M. & Taskoski, P. (2018). Variability of the most important quantitative properties in some varieties of tobacco type Burley. Journal of Agricultural, Food and Environmental Sciences, JAFES, online ISSN: 2545-4315, 72(2), 83-87. Naumovski, K. (1988). Heritability, a genetic index for prediction of breeding results. CORESTA, No 2., p. 49. Abst. 2943. Nikolova, V. & Drachev, D. (2006). Technologikal study on Burley tobacco of Yambol region. Tobacco, 56(3, 4), 68 – 72 (En). Оmarov, D. S. (1975). On the method of the calculation and evaluation of heterosis in plants. Agricultural Biology, Х(1), 123-127 (Ru). Patel, J., Patel, A., Chakraborty, S. & Sasidharan, N. (2012). Heterosis and relative heterosis in tobacco (Nicotiana tabaccum L.). International J. Plant, Ani. Environ. Sci., 2, 270-275 Pearce, B., Denton, P., Bailey, A. & Miller, B. (2014). Selecting Burley Tobacco Varieties. Tobacco Production Guide, Kentucky and Tennessee, Virginia Tech, and NC State University, 5-8. Pearce, B., Miller, B., Walker, E., Vann, M. & Whitley, Sc. (2019). Selecting Burley Tobacco Varieties. Burley and Dark Tobacco Production Guide 2019-2020, A cooperative effort of the University of Kentucky, the University of Tennessee, Virginia Tech, and NC State University. Peksuslu, A., Sabanci, C. O., Kücüközden, R. & Sekin, S. (2002). Genotype x Environment Interactions and Heritabilities of Some Important Agronomic Traits in Tobacco. The Second Balkan Scientific Conference Quality and Efficiency of the Tobacco Production, Treatment and Processing, Plovdiv, 80-85. Popova, V., Nikolov, N., Drachev, D. & Nikolova, V. (2007). Physico-chemical Characteristics of Quality Groups of Tobacco from the Burley Varietal Group, International Scientific Conference - Stara Zagora, 07-08.06., Scientific Works, I(І), 125-130 (Bg). Risteski I., Kososka K., & Hristoski Z., (2010), Morphological properties of some domestic and introduced burley tobacco varieties (lines) in agroecological conditions of Prilep, Tobacco, vol. 60, № 7-12, 71-78
Qaizar, A., Mohammad, F., Hidayat-ur-Rahman, Sh., Ahmed & Fakharuddin (2016). Heterotic studies in Flue-cured tobacco across environments. Sarhad Journal of Agriculture, 32(2), 112-120. Sastry, A. B. & Prasada Rao, P. V. (1980). Genetic analysis of certain quantitative characters in intervariatal crosses in N. tabacum. Tobacco Research, 6, 32-38. Shyu, C. C., Lai, D. C. & Chang, E. Y. (1975). Esimates of hetitability for some important characters in various tobacco crosses. CORESTA, 3-4, 83. Sobolev, N. A. (1976). Hybridological analisys of polygenic characters. Cytology and Genetica, Х(5), 424-436 (Ru). Stankev, G. (2001). Heritability of quantitative traits in oriental tobacco. Bulgarian Tobacco, 5, 21-24, 74(10-11), 499-500 (Bg). Torrecila, G. & Barroso, A. (1980). Metodologia para los caracteres cualitativos de la planta de Tobaco. Ciencia Tecnica Agricultura Tobaco, 3(1), 21-61 (Es). |
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| Date published: 2024-10-24
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